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TransXplorer

Unlock the Power of RNA-seq Analysis
From Raw Data to Therapeutic Breakthroughs

Why Choose TransXplorer?

End-to-End RNA-seq Pipeline

Seamlessly process raw FASTQ files to actionable biological insights with automated quality control and advanced normalization.

DESeq2 edgeR limma-voom QC Automation

Network Analysis Suite

Explore co-expression, protein-protein interactions, and gene regulatory networks with interactive visualizations.

WGCNA STRING-DB Gene Networks PPI Analysis

Therapeutic Discovery

Identify drug targets with integrated access to ChEMBL, OpenTargets, and drug-gene interaction networks.

ChEMBL OpenTargets Drug Discovery Therapeutics

Clinical Insights

Validate findings with TCGA data, survival analysis, and cell-type deconvolution for clinical relevance.

TCGA Survival Analysis Cell Deconvolution Biomarkers

Dynamic Visualizations

Create interactive volcano plots, heatmaps, PCA, UMAP, and pathway networks with real-time filtering.

Plotly Interactive Plots Real-time Exportable

Multi-Omics Support

Analyze human, mouse, rat, and other model organisms with automatic ID mapping and multi-omics integration.

Multi-omics Human Mouse ID Conversion

Powerful Analysis Modules

Differential Expression

Perform robust DEG analysis with multiple statistical methods and advanced filtering options.

  • DESeq2, edgeR, limma-voom
  • Batch effect correction
  • Interactive volcano plots

Pathway Enrichment

Uncover biological pathways using KEGG, Reactome, GO, and GSEA databases.

  • GSEA and ORA analysis
  • Pathway network visualization
  • Cross-pathway interactions

Clinical Insights

Validate findings with TCGA data, survival analysis, and patient stratification tools.

  • Kaplan-Meier survival plots
  • Biomarker identification
  • Prognostic modeling

WGCNA Analysis

Identify co-expression modules and hub genes from expression data.

  • Module-trait correlations
  • Hub gene identification
  • Interactive network plots

Regulatory Networks

Explore protein-protein interactions (PPI) and gene regulatory networks (GRN).

  • STRING-DB integration
  • DoRothEA TF database
  • Master regulator analysis

Cell type & Drug Discovery

Carrying cell-type deconvolution and identify potential drug targets.

  • Cell-type deconvolution
  • ChEMBL & OpenTargets
  • Drug prioritization

Your Research Workflow, Streamlined

1

Upload Data

Import FASTQ, count matrices, or pre-processed data with automatic format detection and validation.

2

Quality Control

Run automated QC with interactive reports and tailored filtering recommendations.

3

Differential Analysis

Perform statistical analysis with multiple methods and visualize results interactively.

4

Biological Insights

Explore pathways, networks, and functional annotations for significant genes.

5

Therapeutic Discovery

Generate therapeutic hypotheses with drug-target identification and clinical validation.

TransXplorer Impact

35+
TCGA Cancer Types
1500+
Analyzed Pathways
8
Analysis Modules
99.9%
Automation Level

Accelerate Your RNA-seq Discoveries

Join thousands of researchers using TransXplorer to transform RNA-seq data into actionable therapeutic insights. Start your journey today with our seamless, AI-powered platform.

RNA-seq Analysis Pipeline

Transform your raw sequencing data into meaningful biological insights

Analysis Pipeline Overview

1
Quality Control

FastQC analysis of raw reads

2
Read Trimming

Trimmomatic quality filtering

3
Alignment

HISAT2 genome mapping

4
Quantification

featureCounts gene counting

5
Quality Metrics

Comprehensive QC reporting

Gene Expression Count Matrix

Waiting for analysis...

Real-time Processing Log

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Analysis in Progress...

Please wait while we process your FASTQ files

FastQC Quality Control Reports

Select Report


Download Report
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No QC Reports Available

QC reports will appear here after FASTQ processing is complete.

Quality Control Summary

About This Analysis

🧰 Tools Used:
  • FastQC: Quality assessment of raw sequencing data
  • Trimmomatic: Adapter removal and quality trimming
  • HISAT2: Fast and sensitive alignment to reference genome
  • featureCounts: Efficient read counting for gene expression quantification
📋 Output Files:
  • Count Matrix: Gene × Sample expression counts (CSV format)
  • QC Report: Comprehensive quality metrics and visualizations
  • Summary Stats: Alignment rates, feature assignment statistics
🔄 Next Steps:

After processing, use the count matrix in the 'Transcriptome Analysis' section for differential expression analysis, exploratory analysis, pathway enrichment, and advanced analysis.

Differential Gene Expression Analysis

Discover significant genes and biological pathways from your expression data

Data Upload

Count matrix or expression data

Statistical Analysis & Visualization

DEG analysis with interactive plots

Pathway Enrichment

GO, KEGG & biological interpretation

Systems Biology

PPI networks, drug targets & gene modules

Processing...
Analysis in progress...

Exploratory Data Analysis


Principal Component Analysis (PCA)

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UMAP Projection

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Batch Effect Assessment

Compare dimensionality reduction plots before and after batch correction to verify effectiveness.

PCA Before Batch Correction
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PCA After Batch Correction
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UMAP Before Batch Correction
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UMAP After Batch Correction
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How to interpret: After correction, samples should cluster more by biological group rather than batch. If batch clustering persists after correction, consider stronger methods or check for confounding.


About these plots: PCA and UMAP are dimensionality reduction techniques that help visualize sample similarities and differences. Samples that cluster together are more similar in their gene expression profiles.


Batch Visualization Available: Use the toggle buttons above to switch between 'Group' and 'Batch' coloring. If samples cluster by batch rather than biological groups, batch correction may be needed in your analysis.

Human Samples Only
Cell type deconvolution is currently only available for human samples. Please select 'human' as your organism in the sidebar to enable this feature.
No Cell Type Data Available

To analyze cell type composition:
  1. Check the 'Include Cell Type Composition' checkbox in the sidebar
  2. Select your preferred deconvolution method (xCell, MCP-counter, or EPIC)
  3. Click the 'Run Exploratory QC' button

Cell Type Proportions per Sample

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Detailed Composition Summary

Download CSV
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Interpretation: The bar plot shows the relative proportions of different cell types across your samples. The table provides detailed statistics including mean enrichment scores, standard deviations, and statistical significance values. Cell types highlighted in green/blue/yellow have significant enrichment (p < 0.05, 0.01, or 0.001 respectively).

Cell Type Enrichment Heatmap

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About the heatmap: This heatmap displays scaled enrichment scores (z-scores) for each cell type across samples.
  • Red colors: High enrichment of the cell type
  • Blue colors: Low/depleted enrichment
  • White: Average enrichment
  • Vertical dashed lines separate different sample groups (if present)

Differentially Expressed Genes

💡 Tip: Click on any gene row to view detailed information from OpenTargets database.
Download All DEGs
💡 Tip: Click on any gene row to view detailed information from OpenTargets database.
Download Upregulated
💡 Tip: Click on any gene row to view detailed information from OpenTargets database.
Download Downregulated

Volcano Plot

Download Plot
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DEG Heatmap

Gene Selection
Sample Filtering
Uncheck to show only the two compared groups
Direction Filter
Number of Genes

Search and select genes from your current DEG results. Showing gene names with IDs.

Clustering Method
Row Clustering
Column Clustering
Download Heatmap
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📊 Current Analysis Overview

🧬 Organism & Database Selection

Auto-detected from DEG Analysis:
Database selection is automatically filtered based on your organism.

⚙ Pathway Analysis Parameters

📈 Pathway Filtering Thresholds
Note: These are separate from your DEG analysis thresholds and are used to filter pathway results.

📋 Pathway Enrichment Results

No Results Yet

Run pathway enrichment analysis to see results here.

📈 Analysis Statistics
Network Controls
💡 Quick Guide: ■ Boxes = Pathways (colored by database) | ● Circles = Genes | Click & drag nodes to reposition | Scroll to zoom | Hover for details

Select Your Analysis Type

Drug-Target Interactions
Analysis Results

PPI Analysis Results

✅ Protein-protein interaction network analysis completed!

GRN Analysis Results

✅ Gene regulatory network analysis completed!

🧬 WGCNA Co-expression Network Analysis Results

✅ WGCNA analysis completed! Results will persist until you run a new analysis.

Modules

Hub Genes

Genes

Quality R²

✅ WGCNA analysis completed! Click tabs below to explore modules and hub genes.

Ready to Analyze

Configure parameters and click 'Run Analysis' to get started.

Gene selection: Ready
Parameters: Configured
Status: Waiting for analysis

Disease Context Executive Summary

Top Therapeutic Area

Validated Targets

Approved Drugs

FDA/EMA Approved

Clinical Trials

Safety Profile

Favorable Safety


Top 5 Repurposing Candidates

Approved drugs targeting your DEGs

Top Disease Associations

Diseases linked to your target genes


Clinical Insights


Disease Context Analysis Overview

This analysis focuses on clinical evidence and disease associations from OpenTargets database.


Disease Targets
Approved Drugs
High Safety Score
Clinical Evidence

Disease Context Summary


Disease-Based Drug Prioritization

Drugs prioritized based on clinical evidence, safety profiles, and disease relevance.



Clinical Development Pipeline

Overview of drugs by clinical development phase and therapeutic area.



Detailed Clinical Evidence


Drug Safety Profile Analysis

Safety scores and risk assessment for identified drugs.


Drug Discovery Executive Summary

Most Druggable Target

Compounds

Druggable Targets

Drug-Like

Potency ≤1μM

Clinical Stage


Top 5 Druggable Targets

Genes with most compound interactions

Top 5 Priority Compounds

Highest potency compounds (by pChEMBL)


Actionable Insights


Drug Prioritization Analysis

This table shows drugs ranked by priority score, with each row representing a unique drug and its aggregated properties across all target interactions.



Complete Drug-Target Interaction Dataset

This table shows all individual drug-target interactions found, with each row representing a specific drug-gene pair. Use this for detailed analysis of specific interactions.



Save Image

Comprehensive Analysis Results

Multi-database analysis combining ChEMBL and OpenTargets data for complete drug-target landscape assessment.


Comprehensive Analysis Executive Summary

Cross-Validated Targets

Total Compounds

Cross-Validated

In Both Databases

ChEMBL Hits

Bioactivity Data

OpenTargets Hits

Clinical Evidence


Database Coverage Analysis

ChEMBL Only

Novel Research

Cross-Validated

Highest Confidence

OpenTargets Only

Clinical Focus

Top Cross-Validated Targets

Highest confidence drug targets (found in both databases)

Top Priority Drug-Target Pairs

Best combined scores from both databases


Strategic Insights


Bioactive Compound Analysis

Drug-target interactions with focus on bioactivity measurements and chemical properties.



Clinical and Disease Context

Target druggability, clinical trials, and disease associations from OpenTargets.



Multi-Database Network View

Interactive network showing relationships from both ChEMBL and OpenTargets data.


Download

Comprehensive Drug Ranking

Multi-factor prioritization combining bioactivity, clinical evidence, and target coverage.


WGCNA Executive Summary

Largest Module

Modules

Hub Genes

Network Quality

DEG Hub Overlap


Top 5 Modules by Size

Largest co-expression modules with functional annotations


Module Size Distribution

Top 10 Global Hub Genes

Most connected genes across all modules


Biological Interpretation


Key Module-Trait Associations

Strongest correlations between modules and traits


Analysis Methods


Download

🎯 Network Quality Assessment

Modules
Hub Genes
Quality R²
Genes

📋 Quality Diagnostics

                                              

📈 Module Summary

Hierarchical Gene Clustering

Gene dendrogram showing how genes cluster together with module color assignments

How to Read This Plot
  • The dendrogram (tree) shows hierarchical clustering of genes based on expression similarity
  • Genes that cluster together (short branches) have similar expression patterns
  • The colored bar below shows module assignments - each color is a different module
  • Grey color indicates genes not assigned to any module (unassigned)
  • Tightly grouped colors suggest well-defined, coherent modules

Module Color Legend

Module Eigengene Expression

Heatmap showing how module eigengenes vary across samples

Understanding Eigengenes
  • Module Eigengene (ME): The first principal component of a module's expression - represents the 'average' expression pattern
  • Red: High eigengene values (module genes are highly expressed)
  • Blue: Low eigengene values (module genes have low expression)
  • Samples that cluster together have similar module activity patterns
  • Modules that cluster together may be co-regulated or functionally related

Module Relationships

Modules with similar eigengene patterns may be functionally related

Evidence-Based Module Categorization

Modules categorized by biological function using weighted pathway enrichment evidence

Categorized Modules

High Confidence

Avg Confidence Score

Pathways Analyzed


Module Category Summary

Each module is assigned a primary category based on weighted evidence from enriched pathways. Confidence scores reflect the strength of the assignment.



Detailed Module Analysis


Category Confidence Breakdown
Top Hub Genes & Supporting Pathways

Category Distribution Across All Modules


Methodology

🎯 Hub Gene Analysis


Module-Trait Correlation Analysis

Correlations between co-expression modules and selected sample traits

How to Interpret Results

Correlation Values:
  • Positive (+, Red): Module expression increases as trait value increases
  • Negative (−, Blue): Module expression decreases as trait value increases
  • |r| ≥ 0.7: Very strong (biologically important)
  • |r| = 0.4–0.7: Moderate relationship
  • |r| < 0.4: Weak or no relationship
Reading the Sign:
  • Check your trait encoding in the table above
  • Positive correlation: genes higher when trait = higher value
  • Negative correlation: genes higher when trait = lower value
  • * (asterisk): Statistically significant (p < 0.05)
  • Focus on hub genes in significant modules
Example Interpretations:

📊 Binary Trait Example: Sex
MEpink ↔ sex = +0.77* (encoding: female=0, male=1)
Interpretation: This module's genes are highly expressed in males. The positive correlation means expression increases with trait value (male=1). Hub genes in this module likely represent sex-specific pathways or hormone-responsive genes that are more active in males.

📈 Continuous Trait Example: Age or Dose
MEblue ↔ age = +0.65* (age in years: 20, 30, 40, 50...)
Interpretation: This module's expression increases with age. As subjects get older, these genes become more active. This could represent aging-related processes, senescence pathways, or accumulated changes over time. Higher correlation = stronger age-dependency.

⚡ Quick Guide: (1) Find significant modules (marked with *), (2) Check trait encoding to understand which group/value is higher, (3) Positive = genes higher in higher-value group, Negative = genes higher in lower-value group, (4) Examine hub genes for mechanistic insights.

Traits Analyzed

Samples Matched

Significant (p<0.05)

Strongest |r|


Selected Traits Information

Correlation Heatmap

Cell values show Pearson correlation coefficients between module eigengenes and traits. * indicates p < 0.05

Download Heatmap

Significant Module-Trait Associations

Associations with p < 0.05, sorted by correlation strength.

Download Full Correlation Matrix

Module-Trait Analysis Not Available

Enable trait analysis in the parameters and upload metadata to see correlations.

🔬 Module Functional Enrichment




Functional Enrichment Not Available

Enrichment analysis was not performed or no significant results found.

Try enabling enrichment in the analysis parameters or check if enrichR package is installed.

Cell Types Detected

Dominant Cell Type

Confidence Score

DEG Markers Identified





Cell Type Proportions Across Samples


Cell Type Composition Table

Download CSV

Cell Type Enrichment Heatmap


Values are scaled (z-score) for visualization. Blue = depleted, Red = enriched.


Cell-Type-Specific DEG Markers

Download CSV

This table shows which of your differentially expressed genes are markers for specific cell types.


About this analysis: Compare cell type proportions between your sample groups (e.g., control vs tumor). Significant differences suggest group-specific cell type enrichment.

Display Options



Quick Stats

Cell Type Proportions by Group


Statistical Comparison Results


Interpretation Guide


Understanding Your Results

What do the scores mean?
  • xCell: Enrichment scores (not proportions). Higher scores indicate higher presence/activity of that cell type. Scores are relative and should be compared across samples.
  • MCP-counter: Absolute scores that correlate with cell abundance. Higher values = more of that cell type present.
  • EPIC: Actual proportions (0-1). Values represent the estimated fraction of each cell type in the sample.
Key Interpretation Tips
  1. Compare, don't interpret in isolation: Cell type scores are most meaningful when comparing between samples or groups.
  2. Check confidence score: Scores above 70% indicate reliable results. Below 50% suggests high variability.
  3. Dominant cell type: The cell type with the highest average proportion across all samples. This gives you a quick overview of your tissue composition.
  4. DEG markers: If your upregulated DEGs are enriched in a specific cell type, it suggests that cell type may be driving your observed changes.
Important Limitations
  • Deconvolution estimates are computational predictions, not direct measurements
  • Results depend on the quality of reference signatures used by each method
  • Low RNA quality or very low cell counts can reduce accuracy
  • For validation, consider orthogonal methods (flow cytometry, IHC, etc.)
  • EPIC requires tumor samples; don't use it for normal tissue
Recommended Next Steps
  1. Examine the heatmap to identify sample clustering by cell composition
  2. Check if cell type differences explain your experimental groups
  3. Link DEG markers to cell types to understand which cells drive expression changes
  4. Validate key findings with literature or orthogonal experimental methods
  5. Export results for publication-quality figures in external software
Pro Tip: If you see a strong correlation between a cell type and your experimental condition, consider whether the biological effect is due to changes in that cell type's abundance or changes in gene expression within existing cells.

Waiting for PPI Analysis

Please wait while the protein-protein interaction network is being analyzed...

PPI Analysis Complete! Results are ready for viewing.
Network auto-stabilizes after 10 seconds
Network Statistics

Proteins

Interactions

Density

Hub Proteins

Network Hub Proteins

Hub proteins are highly connected nodes that play crucial roles in the network.


Download Hub Proteins

Protein-Protein Interactions


Download Interactions

Network Statistics

Network Statistics Explained

These metrics describe the overall structure of your protein interaction network:

  • Total Proteins: Number of proteins in the network
  • Total Interactions: Number of connections between proteins
  • Coverage Rate: Percentage of your input genes found in the interaction database
  • Network Density: How interconnected the network is (0 = sparse, 1 = fully connected)
  • Average Degree: Average number of interactions per protein (higher = more connected)

Confidence Distribution

Confidence Score Explained

What is Confidence Score? Each protein interaction has a confidence score (0-1) indicating reliability based on experimental evidence, databases, and predictions.

Score Interpretation:

  • 0.9 - 1.0: Very strong evidence - highly reliable
  • 0.7 - 0.9: Good evidence - likely biologically relevant
  • 0.4 - 0.7: Moderate evidence - consider validating
  • < 0.4: Limited evidence - use with caution

Your network: The distribution shows how many interactions fall into each confidence range. A peak at higher scores (> 0.7) indicates a more reliable network.

Tip: If you see many low-confidence interactions, consider re-running the analysis with a higher confidence threshold (e.g., 0.7 instead of 0.4) for a more reliable but smaller network.

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Degree Distribution

Understanding Degree

What is 'Degree'? The degree of a protein is the number of other proteins it directly interacts with.

How to interpret:

  • High degree proteins (hubs): Connect to many partners - often key regulators
  • Low degree proteins: Specialized functions with few partners
  • Distribution shape: Most biological networks show many low-degree nodes and few high-degree hubs
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Centrality Measures

Understanding Centrality
  • Betweenness Centrality (X-axis): How often a protein lies on shortest paths between others. High betweenness = critical bridge/bottleneck
  • Closeness Centrality (Y-axis): How quickly a protein can reach all others. High closeness = efficient spreader
  • Bubble size: Represents degree (number of connections)
  • Bubble color: Yellow/green = high degree hubs; Purple = lower connectivity

Pro tip: Proteins in the top-right corner are the most influential - they're well-connected AND control information flow!

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Functional Enrichment Analysis

Running enrichment analysis...

Network Module Detection

Functional modules detected within the PPI network using community detection algorithms.

Module detection was not performed or no modules were found.

To enable module detection, check 'Detect network modules/clusters' in Advanced Options before running the analysis.

PPI Analysis Summary

Input Statistics
Network Properties
Analysis Parameters

Parameters Applied in This Analysis


Top Findings

Systems Biology Analyses

Perform advanced network analyses independently - WGCNA, GRN, and PPI

Select Analysis Module

WGCNA Analysis

Weighted Gene Co-expression Network Analysis

  • Identify co-expressed gene modules
  • Find hub genes
  • Module-trait correlations

GRN Analysis

Gene Regulatory Network Analysis

  • Transcription factor networks
  • Regulatory relationships
  • Master regulators

PPI Analysis

Protein-Protein Interaction Network

  • STRING database integration
  • Functional modules
  • Pathway connections

WGCNA - Weighted Gene Co-expression Network Analysis

Identify co-expressed gene modules and hub genes from your expression data

About WGCNA:

WGCNA identifies groups of genes with similar expression patterns across samples. These co-expression modules often share biological functions and can reveal key regulatory mechanisms.

Step 1: Upload Your Data

File Format Requirements:
  • Count matrix: Genes in rows, samples in columns
  • First column should be gene IDs/names
  • Metadata: Sample names must match count matrix columns
Data Loaded Successfully!

Step 2: Analysis Parameters

Automatically calculates optimal parameters based on your dataset characteristics (sample size, gene count, variance distribution)

Auto-Optimization Results
These values have been automatically calculated. You can override them below if needed.

Auto-optimized based on your data
Auto-optimized for module quality
Auto-optimized for module distinctness
Tip: With auto-optimization enabled, the tool will automatically select the best parameters for your dataset. You can still manually adjust values if needed.

Analysis Results

WGCNA Executive Summary

Largest Module

Modules

Hub Genes

Network Quality

Genes Analyzed


Top 5 Modules by Size

Largest co-expression modules with their hub genes


Top Module-Trait Associations

Strongest correlations between modules and traits


Top Hub Genes

Most connected genes across all modules


Biological Interpretation


Analysis Methods



Gene Dendrogram with Module Colors

Download Dendrogram

Module Sizes

Download Plot

Module Summary Table




Download Module Summary

Hub Genes: These are the most highly connected genes within each module, often serving as key regulators or biomarkers.

Download Hub Genes

Module Eigengenes: Representative expression profiles for each module, summarizing the module's overall expression pattern.
Download Module Eigengenes

Module-Trait Correlation: Shows which modules are associated with sample traits/phenotypes. Significant correlations (p < 0.05) are marked.

Module-Trait Relationship Heatmap

Download Heatmap

Significant Module-Trait Associations


Download Trait Correlations
Enable trait correlation and upload metadata file to see module-trait relationships.

Functional Enrichment Analysis: Identifies biological pathways, GO terms, and functions enriched in each module. This helps understand the biological meaning of co-expression patterns.

Enrichment Results Table


Download Enrichment Results
Enable functional enrichment analysis to identify pathways and functions in your modules.

Module Network: Interactive visualization of gene co-expression within selected module. Nodes = genes, edges = co-expression strength. Larger/darker nodes are hub genes (key regulators).
Tip: Start with default threshold (0.05). If network is too dense (hard to see), increase threshold to 0.10-0.15. If network shows no edges, decrease to 0.01-0.03. Node colors: darker = hub genes, lighter = regular genes.

Analysis Diagnostics: Quality metrics and diagnostic plots for the WGCNA analysis.

Soft Power Selection

The soft power threshold determines network construction sensitivity. Higher values create more specific connections.

Analysis Quality Metrics

GRN - Gene Regulatory Network Analysis

Discover transcription factors controlling your gene expression changes

About GRN Analysis:

Gene Regulatory Networks identify which transcription factors (TFs) regulate your differentially expressed genes. This helps find master regulators driving biological processes.

Step 1: Upload Your Data

Full Analysis Mode

Upload DEG results for complete analysis including TF activities, fold-change integration, and comprehensive enrichment.

GSE151427
Human iPSC-derived Endothelial Cells
CMEC vs PMEC DEG results
Pre-computed differential expression analysis
  • Organism: Homo sapiens
  • Comparison: CMEC vs PMEC endothelial cells
  • DEGs: ~2,500 significant genes (padj < 0.05)
  • Includes: Gene symbols, log2FC, p-values, padj
Normalized Counts
Matching Expression Matrix
VST-normalized counts for TF activity calculation
Same samples as DEG analysis
Important: Expression file gene IDs should match your DEG file gene IDs.
• If DEG uses gene symbols (e.g., TP53), expression file should also use symbols
• If DEG uses Ensembl IDs (e.g., ENSG00000141510), expression file should also use Ensembl IDs
• The tool will attempt automatic conversion, but matching IDs work best!
File Format Requirements:
  • DEG file must have: Gene names, log2FoldChange, padj/FDR columns
  • Expression matrix: Genes in rows, samples in columns (optional)
  • Genes can be Ensembl IDs, gene symbols, or Entrez IDs
Quick Analysis Mode

Paste a gene list for rapid TF identification. Note: TF activities will NOT be calculated without expression data.

Quick Mode Info
  • Accepts gene symbols or Ensembl IDs
  • One gene per line OR comma-separated
  • Minimum 10 genes required
  • All genes treated as 'differentially expressed'

Limitations:
  • No up/down regulation info
  • No TF activity calculation
  • No fold-change based ranking
Genes Parsed Successfully!
Data Loaded Successfully!

Step 2: Gene Selection Criteria

Quick Mode Gene Selection

In Quick Mode, all genes you provide are used directly for analysis. Since no fold-change or p-value data is available, genes cannot be filtered or classified as up/down regulated.

Ready for analysis: genes will be analyzed

Step 3: Analysis Parameters

Minimum TF Connections:
• 1 = Show all TFs (comprehensive view)
• 2-3 = Balanced (recommended for most analyses)
• 5+ = Only major master regulators (clean publication figure)
Advanced Parameters
Smart Defaults:
  • Hybrid database combines DoRothEA (high confidence) and TFLink (comprehensive)
  • Confidence 0.6 balances quality and coverage
  • TF activities show which regulators are active in your conditions

Analysis Results

Executive Summary

Top Master Regulator

Network Scale

Master Regulators

DEG Coverage

Regulatory Circuits


Top 5 Master Regulators

Ranked by regulatory influence, target count, and evidence confidence


TF Regulatory Hierarchy

Transcription factors that regulate other TFs in your network


Biological Interpretation


Regulation Balance

Distribution of activating vs repressing interactions


Next Steps

Recommended actions based on your results



Interactive Network: TFs (circles) regulate target genes (squares). Node size = number of connections. Colors = up/down regulation.

Master Regulators: Key transcription factors with the most regulatory influence on your DEGs.

Top Master TFs by Target Count

Download

TF Activity Scores

Download
Heatmap Controls
Select fewer TFs for clearer visualization. Use 'Across All' scaling to compare activity between samples.

TF activity requires expression data


Master Regulators Table


Download Master TFs

Regulatory Relationships: Complete list of TF-target gene regulations with confidence scores.

Download All Regulations

Functional Enrichment: Biological pathways and functions enriched in TFs and their target genes.

Enrichment Plot

Enrichment Results Table


Download Enrichment Results
Enable pathway enrichment in analysis parameters to see functional insights.

Understanding Regulatory Insights:
  • Activating TFs: TFs that turn ON gene expression (Mode of Regulation = +1)
  • Repressing TFs: TFs that turn OFF gene expression (Mode of Regulation = -1)
  • Note: These classifications are based on database evidence of how TFs regulate their targets, not on whether genes are up/down in your specific experiment.

TFs with Activating Function

Download

TFs whose regulatory mode is primarily activation (MoR = +1)

These TFs activate gene expression based on database evidence. This is independent of whether targets are up/down-regulated in your experiment.

Key Regulatory Relationships

Download

High-confidence TF → Target interactions from the regulatory database


TFs with Repressing Function

Download

TFs whose regulatory mode is primarily repression (MoR = -1)

These TFs repress gene expression based on database evidence. This is independent of whether targets are up/down-regulated in your experiment.

Regulation Patterns

Distribution of regulatory modes across the network


TF Co-regulation

TFs that share common target genes (potential co-regulators)



Analysis Summary

Complete overview of your Gene Regulatory Network analysis

Analysis Parameters


Key Results


Biological Conclusions


Methods


Quick Stats


How to Cite

If you use this tool in your research, please cite:

GRN analysis performed using [Your Tool Name]. TF-target relationships derived from DoRothEA/TFLink databases.

PPI - Protein-Protein Interaction Network

Explore functional protein interactions using STRING database

About PPI:

Protein-Protein Interaction networks reveal functional relationships between proteins, helping identify functional modules and pathway connections.

Step 1: Upload Your Data


OR
File Format Requirements:
  • One gene/protein per line, OR
  • CSV file with gene IDs in the first column
  • Gene symbols or Ensembl/Entrez IDs accepted

Step 2: Analysis Parameters

Tip: Higher confidence scores (0.7-0.9) show only well-established interactions. Lower scores (0.15-0.4) include predicted interactions.

Analysis Results


PPI Network Executive Summary

Top Hub Protein

Proteins

Interactions

Modules

Functional clusters

Hub Genes

> 2× avg degree

Top 5 Hub Proteins

Most connected proteins - potential regulatory nodes


Top Functional Modules

Protein clusters with enriched biological functions



Top Enriched Pathways

Most significant biological pathways in your network


Key Insights & Recommendations


View Controls:
Scroll to zoom • Drag to pan • Click node to select
Network Statistics
Selected Protein
Hub Proteins


About Centrality: Different measures identify important proteins. Degree = most connections. Betweenness = bridges between clusters. Eigenvector = connected to other important proteins.
Centrality Distribution
Top Proteins by Metric

Complete Centrality Table
Download CSV

Detected Modules

Module Enrichment



Top Enriched Pathways
Pathway Categories

Complete Enrichment Results

Note: Drug-gene interactions are sourced from DGIdb and Open Targets. Always validate findings with primary literature.

Drugs Found

Druggable Proteins

FDA Approved


Drug-Target Interactions
Download CSV

Drug Target Analysis Not Available

Drug-gene interaction databases currently only support human (Homo sapiens) proteins.


Supported databases:

DGIdb (Drug Gene Interaction Database)

Open Targets Platform

ChEMBL


Tip: For non-human organisms, consider using organism-specific resources like:
  • MGI (Mouse Genome Informatics) for mouse
  • RGD (Rat Genome Database) for rat
  • FlyBase for Drosophila
  • WormBase for C. elegans

All Protein-Protein Interactions

Export Results


Download All

Get all results in a single ZIP file

Download Complete Analysis

Analysis Parameters



Methods & Citations

STRING Database

Protein-protein interactions from STRING v11.5

Szklarczyk D, et al. (2021) The STRING database in 2021. Nucleic Acids Res 49:D483-D489.
Enrichment Analysis

Pathway enrichment via Enrichr

Kuleshov MV, et al. (2016) Enrichr: a comprehensive gene set enrichment analysis web server. Nucleic Acids Res 44:W90-W97.
Module Detection

Community detection using Louvain algorithm (igraph)

Blondel VD, et al. (2008) Fast unfolding of communities in large networks. J Stat Mech P10008.

Ready to Analyze

Click 'Run Analysis' in the sidebar to build the network.


Network Statistics
⭐ Top Hub Proteins Connections

Network Modules

Dense clusters of interacting proteins often represent protein complexes or functional units.



Pathway Enrichment


TCGA RNA-seq Analysis

Analyze differential expression and clinical data from The Cancer Genome Atlas

1. Select Project

Choose a TCGA cancer cohort

2. Set Parameters

Define analysis and significance thresholds

3. Run Analysis

Execute the DEG and pathway analysis

4. Explore Results

Visualize DEGs, pathways, and QC plots

Ready to Analyze TCGA Data

Select a cancer project from the sidebar and click Run Analysis to begin.


Patient Cohorts

Gene Expression

DEG Analysis

Pathway Analysis

Analysis Complete

Total Genes Analyzed

Upregulated

Downregulated

Total Samples

Vital Status
Sample Types
Analysis Parameters
Quality Control - MA Plot
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Principal Component Analysis (PCA)
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No Results Yet

Run the analysis first to see differential expression results.

Tip: Click on any gene row to view detailed information from OpenTargets database.
Showing genes with log2FC ≥ threshold and adj.P.Val ≤ threshold
Download Upregulated

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Showing genes with log2FC ≤ -threshold and adj.P.Val ≤ threshold
Download Downregulated

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No Data to Visualize

Run the analysis first to generate visualizations.

Interactive Volcano Plot

Download PNG
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DEG Heatmap (Z-score normalized)

Gene Selection
Number of Genes
Color Scale
Clustering
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DEG Analysis Required

Run the DEG analysis first to perform pathway enrichment.

Database Selection

Select multiple databases for comprehensive analysis

Analysis Parameters

Running pathway analysis...

Enrichment Results

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Single Gene Expression & Survival Analysis

Investigate the expression and clinical significance of individual genes within TCGA cohorts

1. Select Gene & Cancer

Choose a TCGA cohort and a gene of interest

2. Choose Analysis

Select either Box Plot or Survival Analysis

3. Run Analysis

Generate plots and statistical summaries

4. Interpret Results

Assess expression differences and survival impact

Gene Set Enrichment Analysis (GSEA)

Discover biological themes, pathways, and processes in your ranked gene lists

1. Upload Data

Provide a pre-ranked list or expression data

2. Select Databases

Choose from KEGG, GO, Reactome, and more

3. Run Analysis

Execute GSEA against selected databases

4. Explore Results

Visualize enriched pathways and gene sets

Analysis in progress... This may take a few minutes.

Gene Display Options:
Preview: First 5 genes Full: All genes (toggle column)

Tip: Use the 'Show/Hide Columns' button above the table to toggle the 'All Core Genes' column for full gene lists.


Database Comparison: Compare pathway enrichment results across different databases to identify the most robust findings.



Plot Types:
Enrichment Plot: Classic GSEA running enrichment score plot
Dot Plot: Pathway significance vs enrichment score
Bar Plot: Pathway significance levels


Download Plot

Download formats: PNG, PDF available

GSEA Enrichment Score Plot

Shows the running enrichment score and gene hit locations

Dot Plot - Pathway Overview

Size = gene count, Color = significance, X-axis = enrichment direction

Bar Plot - Pathway Significance

Bar height = -log10(adjusted p-value), Color = regulation direction


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